Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.
Mean and standard deviation (SD) of the 5% trimmed signals of the negative controls were calculated. Signals of miRNAs over mean+2SD of the negative controls were subtracted with the mean of the negative controls. The undetected signal was replaced with the value that was the least signal intensity on each DNA chip minus 0.1 in log2 scale followed by quantile normalization.